Author: Skalyga, V.
Paper Title Page
THM2I01 60 GHz ECR Ion Sources 277
 
  • T. Lamy, J. Angot, J. Jacob, P. Sole, T. Thuillier
    LPSC, Grenoble Cedex, France
  • M.I. Bakulin
    GYCOM Ltd, Nizhny Novgorod, Russia
  • F. Debray, J.M. Dumas, C. Grandclement, P. Sala, C. Trophime
    LNCMI, Grenoble Cedex, France
  • A.G. Eremeev, I. Izotov, B.Z. Movshevich, V. Skalyga
    IAP/RAS, Nizhny Novgorod, Russia
 
  Funding: We acknowledge the support of the LNCMI-CNRS, member of the European Magnetic Field Laboratory (EMFL), of the the International Science and Technology Center (project 3965) and the European Community.
Electron Cyclotron Resonance Ion Sources (ECRIS) deliver high intensities of multicharged heavy ions to accelerators; nowadays the evolution of science requires extremely intense ion beams. Since 1987, semi empirical scaling laws state that the ECR plasma density, in a minimum-B magnetic field configuration, varies like the square of the electromagnetic waves (EM) frequency or of the resonant magnetic induction. The present most performing ECRIS are operated at 28 GHz. In order to significantly increase the ion beam intensities, the use of EM with frequencies of the order of 60 GHz is evaluated worldwide. Conceptual studies based on superconductors are performed and different magnetic configurations accepting such a high ECR frequency are proposed by several groups. Since 2009, LPSC collaborates with IAP-RAS (Russia) and LNCMI (CNRS) and has built the first 60 GHz ECRIS with a topologically closed resonance zone, using radially cooled polyhelices. Unique ion beam intensities have been extracted through a 1mm hole, like 1.1 mA of O3+ (140 mA/cm2). The worldwide high frequency ECRIS research status is presented along with a focus on the present LPSC-IAP-LNCMI strategy.
 
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